Pd-Doped Cellulose Carbon Aerogels for Energy Storage Applications

Research output: Contribution to journalArticleResearchpeer review

Authors

  • Nathalia Ramirez
  • Dániel Zámbó
  • Fabiana Sardella
  • Patrick A. Kißling
  • Anja Schlosser
  • Rebecca T. Graf
  • Denis Pluta
  • Cristina Deiana
  • Nadja C. Bigall
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Details

Original languageEnglish
Article number2100310
JournalAdvanced Materials Interfaces
Volume8
Issue number12
Early online date25 May 2021
Publication statusPublished - 24 Jun 2021

Abstract

In order to implement a sustainable approach in the development of carbonaceous materials with improved capacitive properties, the development of Pd-doped cellulose carbon aerogels (CA-PdX) is presented. Upon introducing Pd nanoparticles to the carbonaceous matrix prior to the gel formation, carbon aerogels with various Pd content are prepared. Physicochemical properties (such as texture, morphology, crystal structure, and surface chemistry) of CA-PdX are revealed. Additionally, a comparative analysis in their electrochemical properties is performed to shed light on the effect of Pd incorporated into the matrices. It is found that Pd-doping leads to the significant enhancement of power and energy densities (2.9-fold and 55-fold, respectively) compared to those of carbon aerogel without doping (CA-Blank). The straightforward preparation method as well as the powerful control over the structure and composition pave the way toward the utilization of these hybrid materials in energy storage applications.

Keywords

    carbon aerogel, cellulose, electric double-layer capacitors, Pd particles

ASJC Scopus subject areas

Cite this

Pd-Doped Cellulose Carbon Aerogels for Energy Storage Applications. / Ramirez, Nathalia; Zámbó, Dániel; Sardella, Fabiana et al.
In: Advanced Materials Interfaces, Vol. 8, No. 12, 2100310, 24.06.2021.

Research output: Contribution to journalArticleResearchpeer review

Ramirez, N, Zámbó, D, Sardella, F, Kißling, PA, Schlosser, A, Graf, RT, Pluta, D, Deiana, C & Bigall, NC 2021, 'Pd-Doped Cellulose Carbon Aerogels for Energy Storage Applications', Advanced Materials Interfaces, vol. 8, no. 12, 2100310. https://doi.org/10.1002/admi.202100310
Ramirez, N., Zámbó, D., Sardella, F., Kißling, P. A., Schlosser, A., Graf, R. T., Pluta, D., Deiana, C., & Bigall, N. C. (2021). Pd-Doped Cellulose Carbon Aerogels for Energy Storage Applications. Advanced Materials Interfaces, 8(12), Article 2100310. https://doi.org/10.1002/admi.202100310
Ramirez N, Zámbó D, Sardella F, Kißling PA, Schlosser A, Graf RT et al. Pd-Doped Cellulose Carbon Aerogels for Energy Storage Applications. Advanced Materials Interfaces. 2021 Jun 24;8(12):2100310. Epub 2021 May 25. doi: 10.1002/admi.202100310
Ramirez, Nathalia ; Zámbó, Dániel ; Sardella, Fabiana et al. / Pd-Doped Cellulose Carbon Aerogels for Energy Storage Applications. In: Advanced Materials Interfaces. 2021 ; Vol. 8, No. 12.
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title = "Pd-Doped Cellulose Carbon Aerogels for Energy Storage Applications",
abstract = "In order to implement a sustainable approach in the development of carbonaceous materials with improved capacitive properties, the development of Pd-doped cellulose carbon aerogels (CA-PdX) is presented. Upon introducing Pd nanoparticles to the carbonaceous matrix prior to the gel formation, carbon aerogels with various Pd content are prepared. Physicochemical properties (such as texture, morphology, crystal structure, and surface chemistry) of CA-PdX are revealed. Additionally, a comparative analysis in their electrochemical properties is performed to shed light on the effect of Pd incorporated into the matrices. It is found that Pd-doping leads to the significant enhancement of power and energy densities (2.9-fold and 55-fold, respectively) compared to those of carbon aerogel without doping (CA-Blank). The straightforward preparation method as well as the powerful control over the structure and composition pave the way toward the utilization of these hybrid materials in energy storage applications.",
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AU - Ramirez, Nathalia

AU - Zámbó, Dániel

AU - Sardella, Fabiana

AU - Kißling, Patrick A.

AU - Schlosser, Anja

AU - Graf, Rebecca T.

AU - Pluta, Denis

AU - Deiana, Cristina

AU - Bigall, Nadja C.

N1 - Funding Information: The authors acknowledge the funding from the European Research Council (ERC) under the European Union's Horizon 2020 Research and Innovation Program (grant no. 714429). This work was also financed by the German Research Foundation (Deutsche Forschungsgemeinschaft, DFG) under Germany's excellence strategy within the cluster of excellence PhoenixD (EXC 2122, project ID 390833453) and the grant BI 1708/4-1. A.S. and R.T.G. are thankful to the Hannover School for Nanotechnology (hsn) for financial support. The authors are thankful to Prof. J?rgen Caro and Prof. Armin Feldhoff for providing the SEM and XRD facility, and with the Laboratory of Nano and Quantum Engineering (LNQE) for providing the TEM. The authors moreover thank Prof. Denis Gebauer and Kirsten Eiben for providing the ICP-OES facility at the Institute of Inorganic Chemistry (LUH) and for the technical assistance. Open access funding enabled and organized by Projekt DEAL.

PY - 2021/6/24

Y1 - 2021/6/24

N2 - In order to implement a sustainable approach in the development of carbonaceous materials with improved capacitive properties, the development of Pd-doped cellulose carbon aerogels (CA-PdX) is presented. Upon introducing Pd nanoparticles to the carbonaceous matrix prior to the gel formation, carbon aerogels with various Pd content are prepared. Physicochemical properties (such as texture, morphology, crystal structure, and surface chemistry) of CA-PdX are revealed. Additionally, a comparative analysis in their electrochemical properties is performed to shed light on the effect of Pd incorporated into the matrices. It is found that Pd-doping leads to the significant enhancement of power and energy densities (2.9-fold and 55-fold, respectively) compared to those of carbon aerogel without doping (CA-Blank). The straightforward preparation method as well as the powerful control over the structure and composition pave the way toward the utilization of these hybrid materials in energy storage applications.

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